The bio -plastic maxim grows through the pressure test, raising the hopes of the red planet residences.

In a big step for sustainable space travel, researchers have been able to successfully enhance the pluralism within the biodegradable bio -plastic, which imitates the situation in the extreme Martin environment. The purpose of this experiment was to see that the content made of political acid can be kept in the conditions on Mars, where the surface pressure is less than 1 % compared to the soil. This is an important step towards the development of self -retaining housing for the human part of the power of adventures, which requires a new biological system rather than expensive Response Missions.

Bio -plastic chambers grow in bio -plastic chambers under street -like conditions, pave the way for space housing.

According to a study Appeared In Science Advance, a research team headed by Harvard University’s Robin Wordsworth proved that the green lump can not only survive the Denillea Territica, but can also perform Sanchessis within 3D printed chambers, which is a thin, carbon dioxide to the Mars. The bioplastic chamber also protected the altitude from ultra -violet radiation while allowing sufficient light for biological activity. Liquid water was stabilized using pressure melan within the chamber.

Researchers highlight that bio -plastic offers separate benefits from conventional industrial

Content, which is difficult to recycle or transport in space. Since the polytic acid is derived from natural sources, it can potentially be prepared or re -created using algae. Words Worth noted in a statement, “If you have a residence that contains bioplastic and increases the alkaline within it, the algae can produce more bioplastic,” Words Word noted in a statement.

This latest experience is based on the team’s first work, including silica aerozals, which have copied the ground conditions of the land. By combining the shelter -based bio -plastic system for material regeneration with aerogylus for thermal and women’s control, the team sees a viable path for long -term extraordinary external housing. Under Mars -like conditions, the success of the chambers reinforces the possibility of using biologically developed materials to support life out of the earth.

In future experiments, these systems should be tested in strict vacuum conditions, eventually for the benefit of human spacelight and with spin of applications on the ground, Words Worth said, which can get such technology spin of the spin of benefits.